Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A system for managing wireless transmitting devices, said system comprising: at least one transmitter facility configured to: provide signal coverage of an area, said coverage comprising; transmitting at least one signal into said area, wherein a power of the transmitted at least one signal being received by said wireless transmitting devices within the area is greater than a power of a known existing signal within the area; at least one detection facility arranged to detect signal transmissions within the area; a processor in communication with said at least one detection facility and a memory, said memory including code, which when accessed by said processor causes said processor to execute the steps of: receiving, from at least one of said at least one detection facility, the detected signal transmissions associated with one of said wireless transmitting devices, wherein said received signals transmission being associated with a communicative action; determining an identification of the one of said wireless transmitting devices, from information associated with said one of said wireless transmitting devices; determining a type of communicative action; determining an allowability of said one of said wireless transmission devices based on at least one characteristic associated with the one of said wireless transmitting devices wherein the allowability is one of: allowed and not allowed; and connecting the identified one of said wireless transmitting devices to an action facility, wherein the action facility initiates at least one event related to the determined type of communicative action depending on the determined allowability and the type of action.
This system manages wireless transmitting devices by controlling signal coverage and monitoring transmissions within a defined area. The system includes at least one transmitter facility that provides signal coverage by transmitting signals stronger than existing signals in the area, ensuring wireless devices receive the system's signals more prominently. Detection facilities monitor signal transmissions within the area, capturing data from wireless devices engaging in communicative actions. A processor analyzes the detected transmissions to identify the device, determine the type of communicative action (e.g., data transfer, voice communication), and assess the device's allowability based on predefined characteristics (e.g., device type, user permissions). If allowed, the system connects the device to an action facility, which triggers events corresponding to the communicative action, such as data routing or access permissions. If not allowed, the system may block or restrict the device's actions. The system ensures controlled and secure wireless communication by prioritizing its signals and dynamically managing device interactions based on predefined rules.
2. The system of claim 1 , wherein said type of communicative action is one of: placing a call, sending a text message, sending an email, sending an electronic messaging, calling a number, retrieving data, accessing data, connecting to a IP backhaul connection, sending a picture, sending a data packet, connecting to a channel, receiving a call, receiving a text, receiving a IP backhaul call, receiving a message, receiving a picture, receiving a data packet, and initiating a hand-shake.
This invention relates to a system for managing communicative actions in a networked environment, addressing challenges in monitoring, controlling, and optimizing various types of data exchanges between devices. The system is designed to handle a wide range of communicative actions, including placing or receiving calls, sending or receiving text messages, emails, electronic messages, pictures, and data packets. It also supports actions like retrieving or accessing data, connecting to IP backhaul connections, establishing channels, and initiating handshakes. The system dynamically identifies and processes these actions to ensure efficient and secure communication. By categorizing and managing these diverse interactions, the system enhances network performance, security, and user experience. The invention is particularly useful in environments where multiple types of data exchanges occur simultaneously, requiring real-time monitoring and control to prevent disruptions or unauthorized access. The system's ability to handle both outgoing and incoming actions ensures comprehensive coverage of all communication pathways within the network.
3. The system of claim 1 , wherein allowability is based on at least one of: a voice recognition, a voice pattern of a caller, a voice pattern of a person being called, a voice pattern of a person on a call, words being spoken, an amount of money in an account, a program being executed on the transmission device, a location of the transmission device, an IMSI identification, an IMEI identification, an ESN identification, a signal identification, a channel identification, a tower identification, a time of call, a phone number called, a phone number not called, a previous activity, a phone number of a caller, a person calling, a person called, a shift information, a scheduling information, a unit location, an owner of said wireless transmitting device, a user sending data, a user receiving data, an identification of a user, biometric information, facial recognition information, and a job position.
This invention relates to a system for determining the allowability of a communication or data transmission based on multiple factors. The system evaluates whether a transmission should be permitted by analyzing various attributes associated with the transmission device, users, and contextual data. Key factors include voice recognition and voice patterns of callers, called parties, or participants, as well as spoken words. Financial data, such as account balances, may also influence allowability. The system assesses device-specific identifiers like IMSI, IMEI, or ESN, along with signal, channel, and tower information. Temporal factors, such as call time or scheduling data, and geographic data, such as device location or unit location, are considered. The system may also evaluate user identities, biometric data, facial recognition, job positions, and previous activities. Additionally, the system checks phone numbers called or not called, program execution on the device, and ownership details. By integrating these diverse inputs, the system dynamically determines whether a transmission should be allowed, enhancing security and control in communication networks.
4. The system of claim 3 , wherein said previous activity includes at least one of: a number of denials of service, a number of locations, a number of times specific numbers were called, a frequency of call attempts, a time and a location of calls, a volume of denials, a time, a frequency, a period of time, an error log, a missed identification log, an indication of being new to the area, an indication of being a local cell phone, an indication of being owned by one of: a staff member, a neighbor, a relative of a neighbor, a data connection, a transfer, a cell, a location connection (sector, cell) transmission history, a data transmission, GPS information, a tower information, a connection history, a Telco cell sector, wireless access node, a device ownership, a payment information, a name of owner, a tower location, a channel and a sector/cell locations.
This invention relates to a system for analyzing and monitoring telecommunications activity to detect and prevent fraudulent or suspicious behavior. The system collects and evaluates various types of data related to call and data activity, including call frequency, denial of service incidents, geographic location patterns, device ownership details, and network connection history. By tracking metrics such as the number of denied services, call locations, frequency of specific number calls, and error logs, the system identifies anomalies that may indicate fraudulent activity. Additional factors considered include whether a device is new to an area, its ownership status (e.g., staff, neighbor, or relative), payment information, and GPS or tower location data. The system also examines data transmission history, wireless access node connections, and sector/cell locations to assess patterns. This comprehensive analysis helps detect suspicious behavior, such as unauthorized access, spoofing, or other fraudulent actions, by correlating multiple data points to determine the likelihood of malicious intent. The system enhances security by leveraging historical and real-time data to prevent fraudulent activities in telecommunications networks.
5. The system of claim 1 , wherein said identification information includes at least one unique characteristic determined from at least one of: a transmission frequency, a transmission identification number, a transmission time of arrival, a transmission type, a transmission characteristics, a transmission location, a transmission amplitude, a transmission width, a transmission frequency range, an IMSI identification, an IMEI identification, an ESN identification, an owner of said wireless transmitting device, a user sending data, a user receiving data, an identification of a user, biometric information, facial recognition information, and a job position, a voice recognition, and a unique identifier.
This invention relates to a system for identifying wireless transmitting devices and their associated users or owners. The system addresses the challenge of accurately identifying and tracking wireless devices in a network by analyzing multiple unique characteristics of transmissions. These characteristics include transmission frequency, identification numbers, time of arrival, transmission type, signal characteristics, location, amplitude, width, and frequency range. Additionally, the system may use device identifiers such as IMSI, IMEI, or ESN, as well as user-related data like the owner of the device, the sender or receiver of data, user identification, biometric information, facial recognition, job position, voice recognition, and unique identifiers. By leveraging these diverse data points, the system enhances the precision of device and user identification, improving security, monitoring, and network management. The invention is particularly useful in applications requiring robust identification, such as law enforcement, corporate security, or network diagnostics. The system dynamically processes these characteristics to ensure accurate and reliable identification in various wireless communication environments.
6. The system of claim 1 , wherein said action facility is at least one of: a telco switch, a picocell, an IP backhaul, a PBX switching system, a jamming unit, a transmitting unit, a hold channel, a channel, a communication module, a soft switch, a switch, a femtocell, a wide area wireless communication channel, a Macro wireless network, a PBX Module, a communication module, a data filter, a software filter, a wireless receiving unit, a base station, a satellite communication station, a camera system, a recording and transmission system, a graphical display, a text message system, a commercial carrier, a telephone company, a wireless telephone company, a software radio, a discriminator unit, a global communication network, the Internet, an intranet, a wide area network (WAN), a metropolitan area network (MAN), a local area network (LAN), a terrestrial broadcast network, a cable network, a satellite network, a wireless network, a telephone system network and a wireless service provider.
This invention relates to a system for managing communication actions within a telecommunications network. The system addresses the problem of efficiently controlling and routing communication actions across diverse network components, ensuring reliable and secure transmission of data, voice, or multimedia signals. The system includes an action facility that can be implemented as various network elements, such as a telco switch, picocell, IP backhaul, PBX switching system, jamming unit, transmitting unit, hold channel, or communication module. These components facilitate the routing, filtering, or processing of communication signals. The action facility may also include soft switches, femtocells, wide area wireless communication channels, or macro wireless networks to handle different types of communication traffic. Additionally, the system may incorporate data or software filters, wireless receiving units, base stations, or satellite communication stations to manage signal integrity and transmission quality. Other components like camera systems, recording and transmission systems, graphical displays, or text message systems enable monitoring and user interaction. The system can also integrate with commercial carriers, telephone companies, or wireless service providers to ensure seamless connectivity. By leveraging these diverse network elements, the system provides a flexible and robust framework for controlling communication actions across various network infrastructures.
7. The system of claim 1 , wherein the at least one event comprises: enabling the one of said wireless transmitting devices to perform the determined type of action, when the allowability is indicated allowed.
A system for managing wireless device actions involves determining the allowability of a specific action for a wireless transmitting device based on predefined criteria. The system evaluates factors such as device identity, location, time, and environmental conditions to assess whether the action is permissible. If the action is deemed allowed, the system enables the wireless transmitting device to execute the determined type of action. This may include transmitting data, adjusting power levels, or modifying communication protocols. The system ensures compliance with regulatory or operational constraints by dynamically assessing and authorizing actions in real-time. The solution addresses challenges in wireless network management, such as unauthorized transmissions or inefficient resource utilization, by providing a controlled and adaptive framework for action execution. The system enhances security, reliability, and efficiency in wireless communications by integrating contextual awareness and automated decision-making.
8. The system of claim 1 , wherein the at least one event comprises: maintaining control of detected signal transmissions associated with the one of the wireless transmitting devices.
A system for managing wireless signal transmissions involves monitoring and controlling detected signal transmissions from wireless devices. The system identifies and tracks signal transmissions associated with specific wireless transmitting devices, ensuring that these transmissions remain under control. This control may involve regulating signal strength, frequency, timing, or other transmission parameters to prevent interference, unauthorized access, or other disruptions. The system may also include mechanisms for detecting and mitigating rogue or unauthorized transmissions, ensuring secure and reliable wireless communication. By maintaining control over these transmissions, the system enhances network security, reduces interference, and improves overall wireless communication efficiency. The system may be used in various wireless networks, including cellular, Wi-Fi, or IoT environments, where managing signal transmissions is critical for performance and security.
9. The system of claim 1 , wherein the at least one event comprises: manipulating the one of said wireless transmitting devices when said allowability is indicated unallowed.
10. The system of claim 1 , wherein the action facility further configured to: determine a location of the one of said transmitting devices, wherein said location is determined based on at least one of: a cell-sector system, an assisted-global positioning satellite, a GPS chipset technology, a standard GPS technology, a transmission enhanced-observed time difference technology, a transmission amplitude, a time difference of arrival, a time of arrival, an angle of arrival, a triangulation of said transmission facility based on proximity to known locations and transmission facilities, and a map-based location.
The invention relates to a system for determining the location of transmitting devices, addressing the need for accurate and flexible positioning in wireless communication networks. The system includes an action facility that identifies the location of a transmitting device using multiple positioning technologies. These technologies include cell-sector systems, assisted-GPS, standard GPS, GPS chipset technology, transmission enhanced-observed time difference (E-OTD), transmission amplitude, time difference of arrival (TDOA), time of arrival (TOA), angle of arrival (AOA), triangulation based on proximity to known locations and transmission facilities, and map-based location methods. The system leverages these diverse techniques to enhance location accuracy and reliability, particularly in environments where a single method may be insufficient. By integrating multiple positioning approaches, the system ensures robust location determination for applications such as asset tracking, emergency services, and network optimization. The flexibility in selecting positioning methods allows adaptation to varying environmental conditions and device capabilities, improving overall system performance.
11. The system of claim 1 , wherein the at least one event comprising: directing the one of said wireless transmitting devices to a hold facility to prevent the one of said wireless transmitting devices from communicating further, when said allowability is indicated not allowed.
A system for managing wireless transmitting devices in a network environment addresses the problem of unauthorized or improper device communication, which can lead to security risks, network congestion, or policy violations. The system includes a monitoring component that evaluates the allowability of a wireless transmitting device's communication based on predefined criteria, such as authentication status, network policies, or usage patterns. When the system determines that a device is not allowed to communicate, it directs the device to a hold facility. The hold facility acts as an isolation mechanism, preventing the device from further communication until its status is resolved, such as through re-authentication, policy adjustment, or administrative intervention. This ensures that only authorized and compliant devices can access the network, enhancing security and operational efficiency. The system may also include logging and reporting features to track device behavior and enforce compliance. The hold facility can be implemented as a virtual or physical network segment, a quarantine zone, or a dedicated server that restricts device access while allowing for diagnostic or remediation actions. This approach mitigates risks associated with rogue or misconfigured devices without disrupting legitimate network operations.
12. The system of claim 11 , wherein the at least one event comprising: monitoring continued signal transmission of the one of said wireless transmitting devices.
13. The system of claim 11 , wherein the at least one event comprising: continuing signal transmission of the one of said wireless transmitting devices when the one of said wireless transmitting devices is outside of said area.
A wireless communication system monitors and controls signal transmission from wireless transmitting devices within a defined area. The system detects when a wireless transmitting device exits the area and continues signal transmission from that device even after it leaves the area. This ensures uninterrupted communication for devices that may temporarily move outside the designated coverage zone. The system may include multiple wireless transmitting devices and a central controller that manages signal transmission based on device location. The controller can track device positions and adjust transmission parameters to maintain connectivity for devices that are no longer within the predefined area. This approach is useful in scenarios where seamless communication is required despite device mobility, such as in industrial automation, asset tracking, or smart infrastructure applications. The system may also include sensors or beacons to determine device locations and trigger transmission adjustments accordingly. By continuing signal transmission for devices outside the area, the system avoids disruptions that could occur if transmission were halted upon exiting the zone. This feature enhances reliability and flexibility in wireless communication networks.
14. The system of claim 1 , wherein the at least one event comprising: disabling all features except voice communication during contact with an emergency number of the wireless transmitting device when the allowability is indicated not allowed.
A system for managing wireless device functionality during emergency calls involves selectively disabling non-essential features to prioritize voice communication. The system monitors the operational state of a wireless transmitting device and determines whether certain features should be restricted when the device is in contact with an emergency number. Specifically, when the system indicates that feature usage is not allowed, it disables all features except voice communication. This ensures that critical emergency calls are not interrupted by other device functions, such as data transmission, applications, or non-voice services. The system may also include mechanisms to detect emergency conditions, assess device capabilities, and enforce restrictions dynamically. By limiting device functionality during emergency calls, the system enhances call reliability and reduces potential interference, ensuring that voice communication remains uninterrupted. The approach is particularly useful in scenarios where network conditions or device limitations could otherwise degrade call quality or connectivity.
15. The system of claim 1 , wherein the at least one event comprising: directing the one of said wireless transmitting devices to a carrier channel when the allowability is indicated allowed.
A wireless communication system manages channel allocation for wireless transmitting devices to optimize spectrum usage. The system monitors wireless activity and determines the allowability of transmitting on a carrier channel based on detected interference or regulatory constraints. When the system determines that transmission is allowed, it directs one or more wireless transmitting devices to the carrier channel. This dynamic allocation ensures efficient use of available spectrum while avoiding conflicts with other transmissions or regulatory violations. The system may also include features such as interference detection, channel prioritization, and adaptive frequency selection to further enhance performance. By dynamically adjusting channel assignments, the system improves spectral efficiency and reduces the likelihood of transmission collisions or regulatory non-compliance. The system is particularly useful in dense wireless environments where spectrum resources are limited and must be carefully managed to avoid interference and maximize throughput.
16. A pseudo-tower system managing communications of wireless devices within an area controlled by said pseudo-tower, said pseudo-tower comprising: at least one transmission facility configured to; transmit a signal having a higher signal power in said area than a power of a base station associated with a macro-wireless station associated with said area; at least one transmission detection facility configured to detect a signal transmission from a wireless device from among the wireless devices; and a communication center comprising: a processor and a memory, the memory including code which when accessed by the processor configures the processor to: receive the detected signal transmission from the at least one of said at least one transmission detection facility, wherein said detected signal transmission is associated with a communicative action associated with the wireless device; identify, based on identification information, said wireless device associated with the detected signal transmission; determine the communicative action, determine an allowability of said wireless device, wherein said allowability is one of: authorized and unauthorized; and initiate at least one event related to said wireless device depending on the allowability of the transmission device and the communicative action.
A pseudo-tower system manages wireless device communications within a controlled area, acting as an intermediary between devices and a macro-wireless network. The system includes a transmission facility that broadcasts signals with higher power than nearby base stations, ensuring dominance in the area. A transmission detection facility monitors signals from wireless devices, capturing transmissions for analysis. A communication center processes these signals, using a processor and memory to identify the device, determine the nature of the communication (e.g., call, data transfer), assess whether the device is authorized or unauthorized, and trigger appropriate actions based on the device's status and the communication type. For authorized devices, the system may facilitate seamless connectivity, while unauthorized devices may be blocked or flagged for further action. This system enhances network control, security, and efficiency by dynamically managing device access and communications within the designated area.
17. The pseudo tower system of claim 16 , wherein the communicative action is one of: placing a call, sending a text message, sending an email, sending an electronic messaging, calling a number, making a call; retrieving data, accessing data, connecting to a IP backhaul connection, sending a picture, sending a data packet, connecting to a channel, receiving a call, receiving a text, receiving a IP backhaul call, receiving a message, receiving a picture, receiving a data packet, and initiating a hand-shake.
The pseudo tower system is designed to enhance wireless communication by simulating the functionality of a traditional cellular tower while providing additional flexibility and efficiency. The system addresses challenges in network coverage, signal reliability, and data transmission by enabling various communication actions without relying on conventional infrastructure. These actions include placing or receiving calls, sending or receiving text messages, emails, electronic messages, pictures, and data packets. The system also supports IP backhaul connections, channel connections, and handshake protocols, allowing seamless data retrieval and access. By integrating these capabilities, the system improves connectivity in areas with limited or no traditional cellular coverage, ensuring reliable communication for users. The pseudo tower system can dynamically adapt to different communication needs, making it suitable for various applications, including emergency services, remote areas, and temporary event setups. The technology leverages advanced signal processing and network protocols to maintain high-performance communication, reducing dependency on fixed infrastructure while enhancing user experience.
18. The pseudo tower system of claim 16 , wherein allowability is based on at least one of: a voice recognition, a voice pattern of caller, a voice pattern of the person being called, a voice pattern of any person on the call, words being spoken, an amount of money in an account, a program being executed on the transmission device, a location of the wireless device, an IMSI identification, an IMEI identification, an ESN identification, a signal identification, a channel identification, a tower identification, a time of call, a phone number called, a phone number not called, a previous activity, a phone number of caller, a person calling, a person called, a shift information, a scheduling information, a unit location, an owner of said wireless device, a user sending data, a user receiving data, an identification of a user, biometric information, facial recognition information, and a job position.
The pseudo tower system is designed to manage wireless device connectivity by dynamically determining whether a device is allowed to connect to a pseudo tower, which acts as an intermediary between the device and a cellular network. The system evaluates various factors to assess allowability, ensuring secure and controlled access. These factors include voice recognition and voice patterns of call participants, spoken words, financial account balances, software execution status on the device, geographic location, device identifiers (IMSI, IMEI, ESN), signal and channel details, tower identification, call timing, called or not-called phone numbers, historical activity, caller and recipient identities, shift and scheduling data, unit location, device ownership, user roles in data transmission or reception, user identification, biometric data, facial recognition, and job position. By analyzing these criteria, the system can restrict or permit connections based on predefined rules, enhancing security and operational control in wireless communications. The pseudo tower system thus provides a flexible framework for managing device access in diverse scenarios, such as enterprise environments, restricted networks, or emergency services.
19. The pseudo tower system of claim 18 , wherein previous activity includes at least one: a number of denials of service, a number of locations, a number of times numbers were called, the frequency of call attempts, a time and location of events, the volume of denials, times, frequency, period of time, error logs, missed identification logs, new to the area indication, an arrived that day indication, a local cell phone owned by one of: a staff member, neighbor, and a relative of a neighbor migrating thru the area, all data connections transfer, a cell location, a location connections (sector, cell), a transmission history, a data transmission, GPS information, a tower information connections history, a Telco cell sector, a wireless access node, a device ownership, a payment information, a name of owner, a tower information, a tower location, a channel and a sector/cell location.
This invention relates to a pseudo tower system for monitoring and analyzing wireless communication activity to detect and mitigate potential security threats or anomalies. The system collects and processes various types of data associated with wireless devices and network interactions to assess suspicious behavior. The data includes call attempt frequency, denial of service incidents, device locations, transmission histories, GPS information, and ownership details. By analyzing this data, the system identifies patterns such as frequent call attempts, unusual movement, or mismatched ownership information, which may indicate fraudulent or unauthorized activity. The system also tracks device connections to specific network sectors or cells, data transfer volumes, and error logs to detect anomalies. Additionally, it considers factors like whether a device is new to an area or owned by a local individual, such as a staff member, neighbor, or relative, to assess legitimacy. The system uses this comprehensive data set to enhance security by detecting and responding to potential threats in real-time, improving network integrity and user safety.
20. The pseudo tower system of claim 16 , wherein said identification information includes at least one characteristic selected from at least one of: a transmission frequency, a transmission identification number, a transmission time of arrival, a transmission type, a transmission characteristics, a transmission location, a transmission amplitude, a transmission width, a transmission frequency range, an IMSI identification, an IMEI identification, an ESN identification, an owner of said wireless transmitting device, a user sending data, a user receiving data, an identification of a user, biometric information, facial recognition information, and a job position, a voice recognition and an unique identifier.
The pseudo tower system is designed to enhance wireless communication monitoring and identification by capturing and analyzing detailed transmission characteristics from wireless devices. The system addresses challenges in accurately identifying and tracking wireless transmissions, particularly in scenarios where traditional methods may fail due to signal interference, encryption, or limited metadata. The system collects identification information from wireless transmissions, which may include technical parameters such as transmission frequency, time of arrival, amplitude, and frequency range. Additionally, it gathers device-specific identifiers like IMSI, IMEI, or ESN, as well as user-related data such as the owner of the device, the sender or receiver of data, and biometric or facial recognition information. The system may also incorporate unique identifiers and voice recognition to further refine identification. By analyzing these diverse characteristics, the pseudo tower system improves the accuracy and reliability of wireless device tracking and monitoring, enabling applications in security, surveillance, and network management. The system can be deployed in various environments to intercept, analyze, and log wireless transmissions, providing comprehensive insights into device activity and user behavior.
21. The pseudo tower system of claim 16 , wherein said communication center is at least one of: a telco switch, a picocell, an IP backhaul, a PBX switching system, a jamming unit, a transmitting unit, hold channel, a channel, communication module, a soft switch, a switch, femtocell, wide area wireless communication channel, a Macro wireless network, PBX Module, communication module, a data filter, a software filter, a wireless receiving unit, a base station, a satellite communication station, a camera system, a recording and transmission system, a graphical display, a text message system, a commercial carrier, a telephone company, a wireless telephone company, a software radio, a discriminator unit, a global communication network, the Internet, an intranet, a wide area network (WAN), a metropolitan area network (MAN), a local area network (LAN), a terrestrial broadcast network, a cable network, a satellite network, a wireless network, a telephone system network and a wireless service provider.
The pseudo tower system is designed to enhance communication infrastructure by providing flexible and scalable connectivity solutions. The system addresses challenges in traditional communication networks, such as limited coverage, high costs, and inflexible architectures, by integrating a communication center that can function as a hub for various communication services. The communication center in this system can be implemented as a telco switch, picocell, IP backhaul, PBX switching system, jamming unit, transmitting unit, or hold channel, among other configurations. It may also serve as a channel, communication module, soft switch, femtocell, or wide area wireless communication channel, enabling seamless integration with existing networks. Additionally, the system supports data filtering through software or hardware filters and includes wireless receiving units, base stations, and satellite communication stations for broader coverage. The communication center can also interface with camera systems, recording and transmission systems, graphical displays, and text message systems, facilitating multimedia and data services. Furthermore, the system can connect to commercial carriers, telephone companies, wireless service providers, and global communication networks like the Internet, intranet, WAN, MAN, LAN, terrestrial broadcast networks, cable networks, satellite networks, and wireless networks. This versatility allows the pseudo tower system to adapt to diverse communication needs, improving reliability and efficiency in both urban and remote areas.
22. The pseudo tower system of claim 16 , wherein the at least one event comprises: allowing the wireless device to perform at least one of: make a call, receive a call, send a text message, receive a text message, receive data, and an ability to send data, when said allowability is determined authorized.
A pseudo tower system is designed to enhance wireless communication by simulating the functionality of a traditional cellular tower while providing additional control over device connectivity. The system addresses the need for secure and authorized access to wireless services, particularly in environments where traditional network infrastructure may be limited or restricted. The pseudo tower system includes a network of pseudo towers that can dynamically interact with wireless devices, such as smartphones or IoT devices, to manage their connectivity based on predefined authorization criteria. The system determines the allowability of a wireless device to perform specific functions, such as making or receiving calls, sending or receiving text messages, or exchanging data. When the system authorizes the device, it grants the device the ability to perform these functions. This authorization process ensures that only permitted devices can access the network, enhancing security and preventing unauthorized usage. The pseudo tower system can be deployed in various scenarios, including temporary networks, restricted areas, or emergency situations, where controlled access to wireless services is required. By dynamically adjusting connectivity permissions, the system provides flexibility in managing device access while maintaining network integrity.
23. The pseudo tower system of claim 21 , wherein the at least one event comprises: manipulating the wireless device when said allowability is indicated to be unauthorized.
A pseudo tower system is used in wireless communication networks to simulate the behavior of a legitimate cellular tower, often for testing or security purposes. The system can detect and respond to unauthorized access attempts by wireless devices. This invention improves upon existing pseudo tower systems by introducing a mechanism to manipulate a wireless device when unauthorized access is detected. The manipulation can include actions such as disconnecting the device, altering its network settings, or triggering security protocols. The system first determines whether a device's access is authorized or unauthorized. If unauthorized, it then performs predefined actions to mitigate the threat, such as blocking the device or logging the event for further analysis. This enhances network security by actively responding to unauthorized access rather than passively detecting it. The system can be deployed in various environments, including testing labs, security research, or operational networks, to improve detection and response capabilities against unauthorized wireless device access.
24. The system of claim 16 , wherein the at least one event comprises: directing the wireless device to a carrier channel to allow the wireless device to communicate further when said allowability is determined authorized.
A wireless communication system is designed to manage device connectivity by evaluating the allowability of a wireless device to access a network. The system includes a processor and a memory storing instructions that, when executed, cause the processor to determine whether the wireless device is authorized to communicate on a carrier channel. If authorization is confirmed, the system directs the device to the carrier channel, enabling further communication. The system may also monitor for events, such as signal strength changes or network congestion, to dynamically adjust connectivity. The processor may further analyze device identifiers, usage patterns, or network policies to assess authorization. The system ensures efficient and secure network access by dynamically routing authorized devices to appropriate channels while restricting unauthorized access. This approach optimizes network resources and enhances security by preventing unauthorized devices from consuming bandwidth or accessing sensitive data. The system may also include a user interface for administrators to configure allowability criteria or monitor device activity. The overall solution improves network reliability and security by dynamically managing device connectivity based on real-time authorization checks.
25. The pseudo tower system of claim 16 , wherein the at least one event comprises: determining a location of said wireless device, wherein said location is determined from at least one of: a cell-sector system, an assisted-global positioning satellite, a GPS chipset technology, a standard GPS technology, a transmission enhanced-observed time difference technology, a transmission amplitude, a time difference of arrival, a time of arrival, an angle of arrival, a triangulation of said wireless device based on proximity to known locations and other transmission facilities, and a map-based location.
The pseudo tower system is designed to enhance wireless communication by simulating the functionality of a traditional cellular tower. The system addresses challenges in providing reliable wireless coverage, particularly in areas with limited infrastructure or where traditional towers are impractical. The system determines the location of a wireless device using various positioning technologies, including cell-sector systems, assisted-GPS, standard GPS, enhanced-observed time difference, transmission amplitude, time difference of arrival, time of arrival, angle of arrival, triangulation based on proximity to known locations, and map-based location methods. These techniques enable precise positioning of the device, which is critical for optimizing signal transmission, reducing interference, and improving overall network performance. The system dynamically adjusts its operations based on the device's location to ensure seamless connectivity and efficient resource allocation. By leveraging multiple positioning methods, the pseudo tower system enhances accuracy and reliability in wireless communications, making it suitable for diverse environments and applications.
26. The pseudo tower system of claim 16 , wherein the at least one event comprises: preventing said wireless device from performing at least one of: making a call, receiving a call, sending a text message, receiving a text message, receiving data, and sending data, when said allowability is determined unauthorized.
The pseudo tower system is designed for wireless communication management, particularly in scenarios where unauthorized device activity must be restricted. The system simulates a cellular tower to interact with wireless devices, allowing control over device functionality based on predefined criteria. This technology addresses the need to enforce access restrictions, such as preventing unauthorized use of wireless services in specific locations or under certain conditions. The system includes a pseudo tower that communicates with wireless devices, determining whether their activity is authorized. If the system identifies an unauthorized event, it can restrict the device's ability to perform various functions. These functions include making or receiving calls, sending or receiving text messages, and transmitting or receiving data. By blocking these actions, the system ensures compliance with access policies, enhancing security and preventing misuse of wireless services. The pseudo tower operates as a virtual or simulated network node, enabling dynamic control over device operations without requiring physical infrastructure changes. This approach is particularly useful in environments where strict access control is necessary, such as secure facilities or restricted areas. The system's ability to selectively disable device functions provides a flexible and scalable solution for managing wireless device behavior.
27. The pseudo tower system of claim 25 , wherein the at least one event comprising: allowing continued signal transmission by the wireless device when said wireless device is located outside of said area.
The pseudo tower system is designed for wireless communication networks, particularly addressing issues related to signal transmission in restricted areas. The system involves a pseudo tower that mimics the behavior of a legitimate cellular tower but operates independently to manage wireless device connectivity. A key feature is the ability to detect and respond to specific events, such as when a wireless device moves outside a designated area. In such cases, the system allows the device to continue signal transmission despite being outside the predefined zone, ensuring uninterrupted communication. This functionality is part of a broader system that may include monitoring device location, managing signal routing, and enforcing access controls. The pseudo tower can also handle other events, such as signal interference or network congestion, by dynamically adjusting transmission parameters. The system is particularly useful in scenarios where traditional network infrastructure is limited or where controlled signal management is required, such as in private networks, restricted zones, or emergency response situations. By enabling continuous signal transmission even when devices are outside designated areas, the system enhances reliability and flexibility in wireless communication.
28. The pseudo tower system of claim 25 , wherein the at least one event comprising: monitoring continued signal transmission of said wireless device when said detected transmission is within said area.
The pseudo tower system is designed for wireless communication networks, particularly addressing challenges in signal monitoring and device tracking within a defined area. The system includes a network of pseudo towers that simulate the functionality of traditional cellular towers but with enhanced capabilities for detecting and analyzing wireless device transmissions. The system monitors the continued signal transmission of a wireless device when its detected transmission is within a specified area, ensuring persistent tracking and data collection. This functionality is part of a broader system that detects wireless devices based on their signal characteristics, such as signal strength, frequency, or unique identifiers, and determines their location or movement patterns within the monitored area. The pseudo towers may also include mechanisms for classifying the type of wireless device or its transmission behavior, enabling targeted monitoring or response actions. The system is particularly useful in scenarios requiring real-time tracking, such as security applications, network optimization, or compliance monitoring. By continuously monitoring transmissions within the area, the system ensures accurate and up-to-date data on device activity, improving overall network performance and security.
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January 2, 2018
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